Justin Norman

About Justin Norman

Justin Norman, With an exceptional h-index of 37 and a recent h-index of 36 (since 2020), a distinguished researcher at University of California, Santa Barbara, specializes in the field of Electronic and Photonic Materials.

His recent articles reflect a diverse array of research interests and contributions to the field:

Lifetime-limiting mechanisms of integrated IR sources for silicon photonics

Heterogeneous Integration Using a Germanium Handle Substrate

Monolithic Passive− Active Integration of Epitaxially Grown Quantum Dot Lasers on Silicon

Performance of photoconductive receivers at 1030 nm excited by high average power THz pulses

Preface to Special Issue on Towards High Performance Ga2O3 Electronics: Epitaxial Growth and Power Devices (I)[J]

Addressing the Optical Degradation of 1.3 μm Quantum Dot Lasers through Subthreshold Characterization

Dislocation glide suppression for misfit dislocation free heteroepitaxy

Unveiling the dynamical diversity of quantum dot lasers subject to optoelectronic feedback

Justin Norman Information

University

Position

Postdoc

Citations(all)

4839

Citations(since 2020)

4010

Cited By

2514

hIndex(all)

37

hIndex(since 2020)

36

i10Index(all)

79

i10Index(since 2020)

74

Email

University Profile Page

Google Scholar

Justin Norman Skills & Research Interests

Electronic and Photonic Materials

Top articles of Justin Norman

Lifetime-limiting mechanisms of integrated IR sources for silicon photonics

2024/3/8

Heterogeneous Integration Using a Germanium Handle Substrate

2024/2/29

Monolithic Passive− Active Integration of Epitaxially Grown Quantum Dot Lasers on Silicon

physica status solidi (a)

2024/2

Performance of photoconductive receivers at 1030 nm excited by high average power THz pulses

IEEE Transactions on Terahertz Science and Technology

2024/1/25

Preface to Special Issue on Towards High Performance Ga2O3 Electronics: Epitaxial Growth and Power Devices (I)[J]

J. Semicond

2023/7/1

Addressing the Optical Degradation of 1.3 μm Quantum Dot Lasers through Subthreshold Characterization

ACS Photonics

2023/11/11

Dislocation glide suppression for misfit dislocation free heteroepitaxy

2023/10/31

Unveiling the dynamical diversity of quantum dot lasers subject to optoelectronic feedback

arXiv preprint arXiv:2309.14056

2023/9/25

Photoconductive receivers at 1030 nm for high average power pulsed THz detection

arXiv preprint arXiv:2308.02590

2023/8/3

Resonant Two-Laser Spin-State Spectroscopy of a Negatively Charged Quantum-Dot–Microcavity System with a Cold Permanent Magnet

Physical Review Applied

2023/7/13

Monolithic integrated quantum dot photonic integrated circuits

2023/7/4

Dislocation‐Induced Structural and Luminescence Degradation in InAs Quantum Dot Emitters on Silicon

physica status solidi (a)

2023/7

Cross-Polarization-Extinction Enhancement and Spin-Orbit Coupling of Light for Quantum-Dot Cavity Quantum Electrodynamics Spectroscopy

Physical Review Applied

2023/6/29

Photonic Systems Comprising an Asymmetric Coupler and Methods of Fabrication

2023/6/1

System comprising an integrated waveguide-coupled optically active device and method of formation

2023/4/18

Quantum Dots for Photonic Integrated Circuits: From Isolation-Free to Amplitude Noise Squeezing

2022/7/11

Erratum to: Physics and applications of quantum dot lasers for silicon photonics

Nanophotonics

2022/5/2

Four-wave mixing in 1.3 μm epitaxial quantum dot lasers directly grown on silicon

Photonics Research

2022/5/1

Bias-dependent carrier dynamics and terahertz performance of ErAs: In (Al) GaAs photoconductors

IEEE Transactions on Terahertz Science and Technology

2022/4/26

Analysis of dislocation-related and point-defects in III-As layers by extensive DLTS study

2022/3/4

See List of Professors in Justin Norman University(University of California, Santa Barbara)

Co-Authors

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